The SciVario twin is a future proof bioprocess controller, developed by Eppendorf, with the intuitive software, bringing the digital age to the laboratory.

Whether your process includes cell culture or fermentation, autoclavable or single-use vessels, the BioFlo 320 seamlessly combines form and function in one state of the art package. A robust industrial design, intelligent sensors, Ethernet connectivity, and enhanced software capabilities are only a few of the features that set it apart from the competition. Combined with a sincere commitment to quality, the BioFlo 320 truly is the premium choice in bench-scale bioprocess control stations.

For over two decades New Brunswick CO₂ incubators have provided researchers with a reliable, easy-to-use system for culturing cells. The New Brunswick S41i CO₂ incubator shaker continues this tradition with state-of-the-art features and reliable high performance.

Since their introduction over twenty years ago, Galaxy CO₂ incubators have become a mainstay in cell culture labs all over the world. They set the standard for quality and innovation, and are designed to meet real world needs. They were first to use a fan-less design, direct heating technology and a seamless chamber. Time and again features like these have helped to improve lab processes and cell culture results.

Since their introduction over twenty years ago, Galaxy CO₂ incubators have become a mainstay in cell culture labs all over the world. They set the standard for quality and innovation, and are designed to meet real world needs. They were first to use a fan-less design, direct heating technology and a seamless chamber. Time and again features like these have helped to improve lab processes and cell culture results.

New Brunswick developed the industry’s first hydrocarbon-based freezers, setting a new benchmark in energy savings and eco-friendly design.

Premium U700 is a large-capacity, upright, ultra-low temperature (-86°C) freezer capable of storing up to 48,000 samples in its 700 Liter / 25 cft.

Get accurate counts of mammalian cells or yeast in under a minute! The NucleoCounter® is a unique automated cell counting device for mammalian cultures. The Nucleocounter YC-100 counts yeast

When built-in temperature control is not needed, Eppendorf Excella Open-Air Shakers are the solution. Ruggedly-built for use on the bench, in an incubator, or in a warm- or cold-room, these shakers are available in three sizes. All but the E1 are microprocessor-controlled with digital display.

Excella temperature-controlled shakers are available with choice of incubation only or incubation with added refrigeration. Designed for larger-capacity needs, console-styled E25 and E25R models accept flasks up to 6 liters and accommodate as many as (12) 2 Liter flasks

Excella temperature-controlled lab shakers are available with choice of incubation only or incubation with added refrigeration. Benchtop E24 incubator shaker and E24R with added refrigeration accommodate test tubes or flasks up to 2.8 liters in a tightly-sealed growth chamber, featuring a clear acrylic lid for excellent visibility of all samples

For shaking in ambient conditions: on the bench, in an incubator or in a warm or cold room, the Innova Platform Shakers are the instrument of choice. Six ruggedly-built models provide reliable, continuous-duty shaking of test tubes and flasks to 6 Liters

Eppendorf Innova 44 Series Lab Shakers can be stacked up to three units high, tripling the capacity of space usually occupied by a single shaker. Innova Model 44 offers incubation, while Innova Model 44R adds refrigeration.

New Brunswick ultra-low temperature laboratory freezers are energy efficient, quiet running and reliable, with a 25-year track record of providing safe and dependable sample storage.

Eppendorf has created a revolutionary new line of large-scale fermentors, modular in design, to allow ready customization, quick delivery, and the ability to expand system capabilities as needs change.

Discover how Raman spectroscopy and parallel bioprocessing enable real-time cell culture monitoring, saving time and providing crucial data for process optimization in biopharmaceutical production.

Learn about the workflow steps for Sf9 cell expansion, virus preparation, and protein production in stirred-tank bioreactors, including GFP expression.

Learn how researchers demonstrated scalable hADSC expansion in stirred-tank bioreactors using microcarriers, achieving metabolic stability and consistent growth for cell therapy applications.

Learn how automated sampling for parallel bioreactors enables continuous, sterile sample collection from CHO cell cultures, maintaining cell density with reduced manual intervention.

Scalability remains a key bottleneck in CGT manufacturing. See how optimized stirred-tank bioreactor systems accelerate translation from clinical to commercial production.

In cell culture, the leakage of toxic or inhibitory chemicals from single-use bioreactors has become a growing concern. Explore recommendations for leachable studies.

Learn about a bioreactor-based Human Induced Pluripotent Stem Cell (hiPSC) expansion workflow with the potential to improve cell therapy applications.

Review this demonstration of a bioreactor and bioreactor system combination used to isolate exosomes after culturing human adipose-derived stem cells in suspension on microcarriers.

Explore the use of a mini bioreactor system for stem cell culturing that optimized process parameters of a human induced pluripotent stem cell (hiPSC) culture in a step-by-step process.

Explore the differences between three cell culture bioprocesses using bench-scale CHO cells, and why tracking specific parameters is important to achieving the inoculation of bioreactors at high viability.

Review this example of scalable AAV production on a suspension cell culture platform through the AAV-2 capsid production process in a controlled environment.

Learn how stirred-tank bioreactors can be used to efficiently expand T cells from different donors.

Explore the feasibility of plasmid DNA production using the DASbox Mini Bioreactor System and compare fed-batch with batch culture with respect to plasmid DNA yield and process efficiency.

This study reviews a fully controlled system allowing an expansion of a high yield of viable cells and optimizing production of high-quality extracellular vesicles in standardized culture conditions.

In this app note, we monitored and analyzed the metabolites derived from hiPSCs as well as cell adhesion and morphology, suggesting that we obtained an excellent physiological environment over time. 

Current bottlenecks in the production of LVs are caused mainly by the disadvantages of classical two-dimensional culture forms. Switching to bioreactors can eliminate those disadvantages and offer the benefits of process automation, tight regulation of production conditions, and reduced labor input. 

Effective drug discovery and development relies in large part on the availability of predictive preclinical model systems. Learn about a bioprocess for the large-scale manufacturing of cardiomyocytes derived from a variety of healthy and diseased hiPSC lines.

Stem cell-derived cortical neurospheres are of great interest in basic neurobiology research and drug research. Cultivation in controlled, stirred-tank bioreactors can improve the homogeneity of neural spheroid cultures and allows culture scale-up. 

In this study, we successfully demonstrated large-scale culture of human adipose-derived mesenchymal stem cells (AdMSCs) in an industrial, single-use vessel at 3.75 L scale and demonstrate the fact that the process can  be conveniently scaled up to industrial levels of production without having to rely on stainless steel culture facilities.

These promising culture systems allow efficient establishment and maintenance of cell aggregates, process monitoring and control, and process scale-up to larger volumes.

This application note details the suitability of Eppendorf BioBLU 0.3c Single-Use Vessels controlled by a DASbox Mini Bioreactor System for the expansion of human bone marrow-derived mesenchymal stem cells on microcarriers.